Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A management server configured to be connected to a plurality of wearable apparatuses and an electronic device, the management server comprising: a transceiver; and a processor configured to: divide a predetermined space based on locations of the plurality of wearable apparatuses into a plurality of divided spaces, control the transceiver to receive a plurality of situation information from an environment sensor of the plurality of wearable apparatuses located in the predetermined space, with the plurality of situation information comprising user position information and user schedule information, obtain a user schedule corresponding to a current time based on the user schedule information, based on the user position information being a position corresponding to the obtained user schedule, determine a situation code based on the received situation information, control the transceiver to receive a plurality of bio-signal information from a biosensor of the plurality of wearable apparatuses located in the predetermined space, determine an emotion code based on the received plurality of bio-signal information, identify a context code of a space among the plurality of divided spaces based on the situation code and the emotion code, identify an operation state of the electronic device located in the space based on the identified context code of the space, the electronic device being connected to the plurality of wearable apparatuses, and control the transceiver to transmit a control signal to the electronic device based on the identified operation state.
This invention relates to a management server system for dynamically controlling electronic devices based on user context and emotional states detected from wearable apparatuses. The system addresses the problem of static device control by adapting electronic device operations in real-time to user activities and emotional responses within a monitored space. The management server connects to multiple wearable devices and an electronic device, dividing a monitored area into zones based on user locations. It collects position and schedule data from the wearables to determine user activities, assigning a situation code when the detected position matches the user's current schedule. Simultaneously, the server gathers biosignal data (e.g., heart rate, stress levels) to assess user emotions, generating an emotion code. Combining these codes produces a context code for each zone, which the server uses to determine the appropriate operational state for the connected electronic device. The system then transmits control signals to adjust the device's operation accordingly, such as modifying lighting, temperature, or media playback based on detected user context and emotional state. This approach enables personalized, adaptive environments that respond to both user activities and emotional needs.
2. The management server of claim 1 , wherein a context code of each of the plurality of wearable apparatuses is identified based on an emotion code and a situation code of a corresponding user of a wearable apparatus of the plurality of wearable apparatuses.
A management server is used to monitor and analyze user data from wearable devices to determine emotional and situational contexts. The server collects data from multiple wearable apparatuses, each associated with a user. For each user, the server identifies an emotion code representing the user's emotional state and a situation code representing the user's current situation. These codes are combined to generate a context code for each wearable apparatus, which encapsulates the user's emotional and situational state. The context code allows the server to provide personalized recommendations, alerts, or interventions based on the user's current context. The system may also track changes in context over time to detect patterns or trends in user behavior. This approach enables more accurate and context-aware decision-making for applications such as mental health monitoring, workplace productivity, or personalized wellness coaching. The server may further process the context codes to generate insights or trigger automated actions, such as sending notifications or adjusting device settings. The system ensures privacy by securely managing user data and context codes.
3. The management server of claim 1 , wherein the processor is further configured to: determine an emotion code of a user of each wearable apparatus of the plurality of wearable apparatuses based on the bio-signal information received from the plurality of wearable apparatuses, and identify the context code of the predetermined space based on the determined emotion code.
This invention relates to a management server for analyzing user emotions in a predetermined space using wearable apparatuses. The system addresses the challenge of understanding emotional states in shared environments, such as workplaces or public spaces, to improve user experience, safety, or productivity. The management server receives bio-signal information from multiple wearable apparatuses worn by users in the space. Each wearable apparatus collects physiological data, such as heart rate, skin conductance, or brainwave patterns, which are transmitted to the server. The server processes this data to determine an emotion code for each user, representing their emotional state (e.g., stress, relaxation, or excitement). The server then identifies a context code for the predetermined space based on the aggregated emotion codes of all users. The context code reflects the overall emotional atmosphere of the space, which can be used to adjust environmental conditions (e.g., lighting, temperature, or sound) or trigger alerts if negative emotions are detected. The system may also correlate the emotion codes with specific activities or events occurring in the space to refine context analysis. This approach enables real-time monitoring of collective emotional states, allowing for dynamic adjustments to enhance user comfort, safety, or engagement. The invention is particularly useful in environments where emotional well-being impacts performance or behavior, such as offices, classrooms, or healthcare facilities.
4. The management server of claim 3 , wherein the processor is further configured to: extract a pleasantness level and an arousal level from the bio-signal information, and determine one of a plurality of emotion codes that are pre-classified based on the extracted pleasantness and arousal levels, as the determined emotion code.
This invention relates to a management server for analyzing bio-signal information to determine emotional states. The system addresses the challenge of accurately classifying human emotions from physiological data, which is crucial for applications in healthcare, user experience monitoring, and human-computer interaction. The management server processes bio-signal data, such as heart rate, skin conductance, or brainwave patterns, to extract two key emotional dimensions: pleasantness (valence) and arousal (intensity). These dimensions are then mapped to predefined emotion codes, which represent distinct emotional states like happiness, sadness, or stress. The emotion codes are pre-classified based on combinations of pleasantness and arousal levels, allowing for standardized emotional categorization. This approach enables real-time or batch analysis of bio-signals to infer emotional responses, facilitating applications such as personalized therapy, adaptive user interfaces, or mental health monitoring. The system enhances emotional recognition accuracy by leveraging bio-signal patterns and structured classification, overcoming limitations of subjective self-reports or less precise physiological measurements.
5. The management server of claim 3 , wherein the bio-signal information comprises information regarding at least one selected from an electrocardiogram (ECG), a heart rate variation (HRV), an electromyogram (EMG), a galvanic skin response (GSR), an oxygen saturation (Sp02), and a skin temperature.
This invention relates to a management server for processing and analyzing bio-signal information to monitor physiological states. The system addresses the need for accurate, real-time health monitoring by collecting and interpreting multiple types of bio-signals, which are critical for assessing a user's health status. The management server processes bio-signal data, including electrocardiogram (ECG) readings, heart rate variability (HRV) metrics, electromyogram (EMG) signals, galvanic skin response (GSR) measurements, oxygen saturation (SpO2) levels, and skin temperature data. These signals provide insights into cardiovascular function, muscle activity, stress levels, respiratory health, and thermal regulation. The server integrates these diverse bio-signals to generate a comprehensive health assessment, enabling early detection of abnormalities and personalized health recommendations. The system enhances diagnostic accuracy and remote patient monitoring by leveraging multiple physiological parameters, improving healthcare outcomes through continuous, non-invasive tracking.
6. The management server of claim 3 , wherein the processor is further configured to: identify context code of each user based on the determined emotion code and a situation code of a user of each wearable apparatus of the plurality of wearable apparatuses, and identify the context code of the predetermined space based on the identified context code of each user.
This invention relates to a management server for analyzing and managing emotional and situational data from multiple wearable apparatuses in a shared space. The system addresses the challenge of understanding collective emotional states and contextual dynamics within a group or environment to improve decision-making, user experience, or system responses. The management server receives emotion codes from each wearable apparatus, which represent the detected emotional state of individual users. Additionally, it obtains situation codes, which describe the current circumstances or activities of each user. The server processes this data to generate a context code for each user, combining their emotional state with their situational context. By aggregating these individual context codes, the server then determines an overall context code for the shared space, reflecting the collective emotional and situational dynamics of the group or environment. This approach enables real-time or historical analysis of group behavior, emotional trends, and situational influences, which can be applied in applications such as workplace productivity monitoring, social interaction analysis, or adaptive environmental control systems. The system enhances situational awareness by correlating individual emotions with broader contextual factors, providing insights that would not be apparent from isolated data points.
7. The management server of claim 6 , wherein the situation information comprises at least one selected from illuminance information and noise information.
A management server is used in environments where situational awareness is critical, such as smart buildings, industrial facilities, or smart cities. The server collects and processes situational data to optimize operations, improve safety, or enhance user experience. A key challenge is accurately capturing relevant environmental conditions to make informed decisions. The management server includes a data acquisition module that gathers situational information from various sensors or external sources. This information includes illuminance data, which measures light levels in an area, and noise data, which assesses sound levels. Illuminance data helps adjust lighting systems for energy efficiency or comfort, while noise data can be used to monitor workplace conditions, enforce noise regulations, or trigger alerts in high-noise environments. The server processes this data to generate insights or control outputs, such as adjusting lighting intensity, activating noise suppression systems, or sending alerts to users. By integrating illuminance and noise information, the system provides a more comprehensive understanding of the environment, enabling better decision-making for automation, safety, or user comfort. The server may also store historical data for trend analysis or predictive maintenance. This approach ensures that environmental conditions are continuously monitored and managed efficiently.
8. The management server of claim 1 , wherein the electronic device comprises at least one device selected from a lighting device, an air conditioner, and a speaker, and wherein the processor is further configured to control at least one setting selected from a brightness of the lighting device, a temperature of the air conditioner, a wind strength of the air conditioner, and a volume of the speaker.
This invention relates to a management server for controlling electronic devices in a networked environment. The system addresses the challenge of efficiently managing and adjusting settings across multiple types of electronic devices, such as lighting devices, air conditioners, and speakers, to optimize user comfort and energy efficiency. The management server includes a processor that communicates with electronic devices to monitor and adjust their operational parameters. For lighting devices, the processor controls brightness levels to balance illumination needs with energy consumption. For air conditioners, it regulates temperature and wind strength to maintain desired environmental conditions while minimizing power usage. For speakers, the processor adjusts volume levels to ensure optimal audio output without excessive energy draw. The system may also incorporate user preferences, environmental data, or scheduling algorithms to automate device adjustments. By centralizing control, the management server simplifies device management and enhances overall system efficiency. This approach is particularly useful in smart home or commercial environments where multiple devices require coordinated control to achieve desired outcomes.
9. The management server of claim 1 , wherein the electronic device comprises a display apparatus, and wherein the processor is further configured to control the display apparatus to display a message depending on an identified operation state on the display apparatus.
This invention relates to a management server for electronic devices, particularly focusing on monitoring and managing device operations. The system addresses the challenge of efficiently tracking and responding to the operational states of electronic devices, such as smartphones, tablets, or other connected devices, to ensure proper functionality and user awareness. The management server includes a processor that communicates with an electronic device to monitor its operation. The device itself may include a display apparatus, such as a screen or notification panel. The processor is configured to identify the operational state of the device, which could include active use, standby, error conditions, or maintenance modes. Based on this identified state, the processor controls the display apparatus to show a relevant message. For example, if the device is in an error state, the display may show an alert or troubleshooting instructions. If the device is in a normal operating state, the display might show a status confirmation or usage tips. The system ensures that users or administrators are promptly informed about the device's condition, improving usability and reducing downtime. The dynamic display of messages based on real-time operational states enhances user interaction and system reliability. This approach is particularly useful in environments where immediate feedback on device status is critical, such as industrial settings, medical devices, or enterprise systems. The invention streamlines device management by integrating state monitoring with visual feedback, ensuring users are always aware of the device's operational status.
10. A wearable apparatus configured to be connected to a management server, the wearable apparatus comprising: a transceiver; a biosensor; an environment sensor; and a processor configured to: control the transceiver to transmit and receive data to and from the management server, control the biosensor to collect bio signal information of a user, with the bio-signal information comprising at least one of a galvanic skin response (GSR), an oxygen saturation (Sp02), a lactic secretion, a blood pressure, a skin temperature, a body composition, and a metabolic state, determine an emotion code based on the collected bio signal information, control the environment sensor to collect situation information, with the situation information comprising user position information and user schedule information, obtain a user schedule corresponding to a current time based on the collected user schedule information, based on the user position information being a position corresponding to the obtained user schedule, determine a situation code based on the collected situation information, identify context code based on the situation code and the motion code, and control the transceiver to transmit the identified context code to the management server.
A wearable apparatus is designed to monitor a user's physiological and environmental conditions and transmit processed data to a management server. The device includes a transceiver for data communication, a biosensor to collect bio-signal information such as galvanic skin response (GSR), oxygen saturation (SpO2), lactic secretion, blood pressure, skin temperature, body composition, and metabolic state. The biosensor data is used to determine an emotion code representing the user's emotional state. Additionally, an environment sensor gathers situation information, including the user's position and schedule. The wearable apparatus retrieves the user's current schedule and compares it with the detected position to determine if the user is in the expected location. Based on this, a situation code is generated. The device then combines the situation code with the emotion code to produce a context code, which is transmitted to the management server. This system enables real-time monitoring of a user's emotional and situational context, facilitating applications in health, wellness, and personalized assistance.
11. The wearable apparatus of claim 10 , further comprising: a memory configured to store the user schedule information; and wherein the environment sensor is further configured to collect the user position information by checking a location of the wearable apparatus, and wherein the processor is further configured to: based on the collected user position information being the position corresponding to the obtained user schedule, determine the situation code, and identify the context code based on the determined emotion code and the determined situation code.
A wearable apparatus monitors a user's emotional state and environmental context to provide personalized assistance. The device includes sensors to detect physiological signals like heart rate, skin conductance, and facial expressions, which are processed to determine an emotion code representing the user's current emotional state. The apparatus also collects environmental data, such as ambient noise, temperature, and user position, to assess the user's situation. A memory stores the user's schedule, which is cross-referenced with the detected position to determine if the user is in an expected location. The processor combines the emotion code and situation code to generate a context code, which reflects the user's emotional state within the current environmental context. This context code can be used to trigger actions like adjusting device settings, providing notifications, or suggesting interventions. The system aims to enhance user well-being by dynamically adapting to both emotional and situational factors.
12. The wearable apparatus of claim 10 , further comprising: a touchscreen configured to receive a transmission command of the situation information, wherein the processor is further configured to control transmitting the identified context code to the management server, in response to the transmission command being input.
This invention relates to a wearable apparatus designed to collect and transmit situation information in real-time, particularly for applications in safety monitoring, emergency response, or situational awareness. The apparatus addresses the challenge of efficiently capturing and relaying contextual data from a user's environment to a centralized management system, ensuring timely and accurate information delivery. The wearable device includes a sensor module that detects environmental conditions, such as temperature, motion, or biometric data, and a processor that analyzes this data to generate a context code representing the current situation. The context code is a standardized identifier that encapsulates the detected conditions, allowing for quick interpretation by the management server. The apparatus also features a touchscreen interface, enabling the user to manually trigger the transmission of the context code to the server. This ensures that critical information is sent only when necessary, conserving power and bandwidth while maintaining situational awareness. The processor is configured to process the sensor data, generate the context code, and transmit it to the management server upon receiving a transmission command via the touchscreen. This interaction ensures that the user has control over when the data is shared, enhancing privacy and security. The system is particularly useful in scenarios where immediate situational updates are required, such as in emergency response, industrial safety, or healthcare monitoring. The wearable apparatus thus provides a reliable and user-controlled method for transmitting contextual information to a central system.
13. The wearable apparatus of claim 12 , wherein the touchscreen is further configured to, in response to a location environment of the wearable apparatus being changed, request the user of the wearable apparatus to input the transmission command.
A wearable apparatus includes a touchscreen interface and a communication module for transmitting data to an external device. The apparatus is designed to operate in environments where secure data transmission is required, such as industrial or medical settings, where unauthorized access or accidental transmission could cause harm. The touchscreen is configured to display a user interface that allows the user to input a transmission command, which initiates data transfer. To enhance security, the touchscreen is further configured to request the user to input the transmission command again when the apparatus detects a change in its location environment, such as moving to a different room or facility. This ensures that data transmission only occurs with explicit user confirmation in new environments, preventing unintended or unauthorized transfers. The apparatus may also include sensors to detect environmental changes, such as proximity sensors or GPS, to trigger the re-authentication prompt. The communication module supports wireless protocols like Bluetooth or Wi-Fi, and the touchscreen may include haptic feedback to confirm command input. The apparatus is designed to be worn on the body, such as on the wrist or arm, and may include additional features like biometric authentication to further secure data transmission.
14. The wearable apparatus of claim 10 , wherein the processor is further configured to: receive, through the transceiver, an operation control command of the wearable apparatus, and control the wearable apparatus based on the received operation control command.
This invention relates to wearable apparatuses designed for remote operation and control. The apparatus includes a processor, a transceiver for wireless communication, and a control system to manage its functions. The key problem addressed is the need for remote control of wearable devices, ensuring they can be operated and adjusted without direct physical interaction. The wearable apparatus is equipped with a processor that executes various functions, including receiving operation control commands via the transceiver. These commands are used to adjust settings, activate features, or modify the device's behavior. The transceiver enables wireless communication, allowing the apparatus to receive instructions from external sources such as a smartphone, computer, or dedicated remote control. The control system processes these commands and implements the necessary adjustments, ensuring the wearable device operates as intended. This design enhances user convenience by enabling remote adjustments, which is particularly useful for devices worn on the body, such as smartwatches, fitness trackers, or medical monitoring devices. The system ensures seamless integration between the wearable and external control devices, improving functionality and user experience. The invention focuses on providing a reliable and efficient method for remote operation, addressing the limitations of manually adjusting wearable technology.
15. The wearable apparatus of claim 10 , wherein the processor is further configured to: obtain a pleasantness level and an arousal level from the bio-signal information, identify one of a plurality of emotion codes that are pre-classified based on the extracted pleasantness and arousal levels, as an emotion state, and identify the context code based on the one of the plurality of emotion codes.
This invention relates to wearable apparatuses designed to analyze bio-signal information to determine a user's emotional state and contextualize it. The apparatus includes sensors to collect bio-signals such as heart rate, skin conductance, or brain activity, which are processed to extract physiological metrics. These metrics are used to derive a pleasantness level and an arousal level, which are then mapped to pre-classified emotion codes representing different emotional states, such as happiness, stress, or fatigue. The apparatus further identifies a context code based on the detected emotion state, which may involve analyzing environmental or activity data to provide a more nuanced understanding of the user's emotional experience. The system may integrate with external devices or databases to refine emotion classification or context identification. The goal is to enable real-time emotional monitoring and personalized feedback, useful in applications like mental health tracking, stress management, or user experience optimization. The apparatus may also include communication modules to transmit data to external systems for further analysis or intervention.
16. A management system, comprising: an electronic device configured to be located in a predetermined space; a plurality of wearable apparatuses configured to collect bio-signal information of users and generate situation information based on the collected bio-signal information, the electronic device being connected to the plurality of wearable apparatuses; and a management server configured to: divide the predetermined space based on locations of the plurality of wearable apparatuses into a plurality of divided spaces, receive the situation information from an environment sensor of the plurality of wearable apparatuses located in the predetermined space, with the situation information comprising user position information and user schedule information, obtain a user schedule corresponding to a current time based on the user schedule information, based on the user position information being a position corresponding to the obtained user schedule, determine a situation code based on the received situation information, receive a plurality of bio-signal information from a biosensor of the plurality of wearable apparatuses located in the predetermined space, determine an emotion code based on the received plurality of bio-signal information, identify a context code of a space among the divided spaces based on the situation code and the emotion code, identify an operation state of the electronic device located in the space among the divided spaces based on the identified context code of the space among the divided spaces, the electronic device being connected to the plurality of wearable apparatuses, and control the electronic device based on the identified operation state.
This system manages electronic devices in a space by analyzing user bio-signals and environmental context to optimize device operation. Wearable devices collect bio-signal data (e.g., heart rate, stress levels) from users and generate situation information, including user positions and schedules. A management server divides the space into zones based on wearable device locations. It retrieves user schedules, compares current positions with scheduled activities, and assigns a situation code. The server also processes bio-signal data to determine an emotion code representing user emotional states. Combining the situation and emotion codes, the system identifies a context code for each zone. Based on this context, the server determines the optimal operation state for electronic devices (e.g., lighting, temperature, audio) in each zone and controls them accordingly. The system dynamically adjusts device settings to enhance user comfort and productivity by integrating real-time biofeedback and environmental awareness.
17. A method of controlling a management server configured to be connected to a plurality of wearable apparatuses and an electronic device, the method comprising: dividing a predetermined space based on locations of the plurality of wearable apparatuses into a plurality of divided spaces, receiving a plurality of situation information from an environment sensor of the plurality of wearable apparatuses located in the predetermined space, with the plurality of situation information comprising user position information and user schedule information; obtaining a user schedule corresponding to a current time based on the user schedule information; based on the user position information being a position corresponding to the obtained user schedule, determining a situation code based on the received plurality of situation information, receiving a plurality of bio-signal information from a biosensor of the plurality of wearable apparatuses located in the predetermined space; determining an emotion code based on the received plurality of bio-signal information, identifying a context code of a space among the divided spaces based on the situation code and the emotion code; identifying an operation state of the electronic device located in the space among the divided spaces based on the identified context code of the space among the divided spaces, the electronic device being connected to the plurality of wearable apparatuses; and controlling the electronic device based on the identified operation state.
This invention relates to a system for managing electronic devices in a shared space based on user context and emotional states detected from wearable apparatuses. The system addresses the challenge of dynamically adjusting device operations to better align with users' activities and emotional needs in a shared environment. The method involves dividing a monitored space into multiple zones based on the locations of multiple wearable devices worn by users. Each wearable device provides situation data, including user position and schedule information, and bio-signal data. The system retrieves the current user schedule and, if the user's position matches their scheduled activity, generates a situation code based on the combined situation data. Simultaneously, bio-signal data (e.g., heart rate, stress levels) is analyzed to determine an emotion code. A context code for each space zone is then derived by combining the situation and emotion codes. Using this context code, the system identifies the appropriate operational state for an electronic device (e.g., a smart speaker, lighting system) in that zone. The device is then controlled accordingly—for example, adjusting volume, brightness, or content based on the detected user context and emotional state. This approach enables personalized and adaptive device management in shared environments, improving user experience and efficiency.
18. The method of claim 17 , wherein a context code of each of the plurality of wearable apparatuses is identified based on an emotion code and user a situation code of a corresponding user of a wearable apparatus of the plurality of wearable apparatuses.
This invention relates to wearable apparatuses that monitor and analyze user emotions and situations to generate context codes for personalized interactions. The system includes multiple wearable devices, each equipped with sensors to detect physiological and environmental data from the user. The devices process this data to determine an emotion code representing the user's emotional state and a situation code representing the user's current context, such as location or activity. These codes are combined to generate a context code, which is used to tailor the wearable device's responses or actions. For example, the context code may adjust notifications, alerts, or device behavior based on the user's emotional state and situation. The system may also compare context codes across multiple wearable devices to identify patterns or correlations, enabling group-based or collaborative interactions. The invention aims to improve user experience by providing context-aware responses that adapt to individual needs and environments.
19. The method of claim 17 , wherein the situation information comprises bio-signal information measured from the plurality of wearable apparatuses, and wherein an emotion code of a user of each wearable apparatus is determined based on the bio-signal information received from the plurality of wearable apparatuses, and the context code of the predetermined space is obtained based on the determined emotion code.
This invention relates to a system for analyzing emotional and contextual data from wearable devices to assess the environment of a predetermined space. The method involves collecting bio-signal information from multiple wearable apparatuses worn by users within the space. These bio-signals, such as heart rate, skin conductance, or other physiological measurements, are used to determine an emotion code for each user. The emotion codes are then aggregated to derive a context code representing the overall emotional state or atmosphere of the space. This context code provides insights into the environmental conditions, user interactions, or situational factors influencing the users' emotions. The system may be used in applications such as workplace monitoring, social event analysis, or healthcare settings to evaluate how the environment affects individuals and groups. By correlating bio-signal data with contextual factors, the method enables real-time or post-analysis of emotional dynamics within the space, improving decision-making for optimizing user experiences or interventions. The approach leverages wearable technology to passively and continuously monitor emotional responses, eliminating the need for explicit user input or self-reporting.
20. A non-transitory computer readable medium comprising a program for executing a method of controlling a management server configured to be connected to a plurality of wearable apparatuses and an electronic device, wherein the method comprises: dividing a predetermined space based on locations of the plurality of wearable apparatuses into a plurality of divided spaces, receiving a plurality of situation information from an environment sensor of the plurality of wearable apparatuses located in the predetermined space, with the plurality of situation information comprising user position information and user schedule information; obtaining a user schedule corresponding to a current time based on the user schedule information; based on the user position information being a position corresponding to the obtained user schedule, determining a situation code based on the received plurality of situation information; receiving a plurality of bio-signal information from a biosensor of the plurality of wearable apparatuses located in the predetermined space; determining an emotion code based on the received plurality of bin-signal information; identifying a context code of a space among the divided spaces based on the situation code and the emotion code; identifying an operation state of the electronic device located in the identified space among the divides spaces based on the identified context code of the identified space among the divided spaces, the electronic device being connected to the plurality of wearable apparatuses; and controlling the electronic device based on the identified operation state.
This invention relates to a system for managing electronic devices in a shared space based on user context and emotional states detected from wearable apparatuses. The system addresses the challenge of dynamically adjusting device operations to enhance user experience by analyzing real-time data from wearable sensors. The system divides a monitored space into multiple zones based on the locations of wearable devices worn by users. Each wearable device provides position data and schedule information, allowing the system to determine a user's current activity (e.g., working, resting) by matching their location to their scheduled tasks. Simultaneously, biosensors in the wearables collect physiological data (e.g., heart rate, stress levels) to assess the user's emotional state, which is encoded into an emotion code. The system combines the user's situational context (derived from position and schedule) with their emotional state to generate a context code for each zone. This context code is then used to determine the optimal operating state of nearby electronic devices (e.g., adjusting lighting, device settings, or notifications). The system dynamically controls these devices to align with the users' activities and emotional needs, improving comfort and productivity in shared environments.
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September 1, 2020
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